Endobronchial tube with integrated image sensor and a cleaning nozzle arrangement

ABSTRACT

An endobronchial tube which contains an integrated camera and light source and a cleaning nozzle arrangement disposed within dedicated peripheral lumen within the tube&#39;s wall.

CROSS-REFERENCE TO RELATED APPLICATIONS

This application is a Continuation of U.S. Ser. No. 13/737,944 which isa US Continuation In Part Application of PCT Application No.PCT/IB2012/052077 filed on 26 Apr. 2012, which claims the benefit ofU.S. Provisional Application Ser. No. 61/506,210 filed on 11 Jul. 2011,all of which are hereby incorporated by reference in their entirety.

FIELD OF THE INVENTION

The present invention relates to upper airway tubes and in particular,to an endobronchial tube with an integrated image sensor and lightsource having a cleaning nozzle arrangement.

BACKGROUND OF THE INVENTION

Respiratory tubes for example endobronchial tubes, endotracheal tubes,tracheostomy tubes are used to ventilate at least a portion of therespiratory system or lungs of a subject. Such respiratory tubes may beinserted in a number of ways via a non-invasive approach through anorifice or cavity such as the oral or nasal cavity. Alternatively suchtubes may be introduced to a body via a minimally invasive externalincision creating a port for tube insertion for example through thetrachea in a tracheotomy procedure.

Such respiratory tubes may be provided as double lumen tubes, or singlelumen tubes for selectively ventilating a portion of the respiratorysystem. For example endobronchial tubes, whether, double lumen tubes ora single lumen tube may be utilized for one-lung ventilation proceduresor for selective lung ventilation of the left or right bronchi, duringone-lung ventilation procedures.

SUMMARY OF THE INVENTION

In order to perform one-lung ventilation procedures withoutcomplications, the position of the respiratory tube placed within eitherthe left or right bronchi and the trachea must be closely monitored orat least confirmed prior to initiating a procedure. Various technologiesare available to confirm the tube's placement, for example capnograph,auscultation, bronchoscope and x-ray.

However these procedures take time, technique and skill to perform andtherefore it is not feasible to continuously monitor the tube'splacement. In particularly when the subject is moved during a procedurethe tube's location may change leading to potentially dangerousdisplacement of the tube possibly suffocating the subject orinappropriate ventilation of the patient, for example not ventilatingthe correct portion of the respiratory system.

Verification by means of a bronchoscope is currently the gold standard,but none of the mentioned confirmation techniques provide continuousmonitoring of the carina or provide for correct tube positioning.Furthermore, drawbacks with respect to the design and sensitivity of thebronchoscope, render its cleaning process elaborate and ofteninefficient and costly process, that may lead to cross infection betweensubjects.

There is an unmet need for, and it would be highly useful to have anendobronchial tube capable of continuously and seamlessly inspect thelocation and implantation of the endobronchial tube relative to theTracheal Carina. Furthermore it would be advantageous to have anendobronchial tube that is capable of maintaining a clear field of viewof the Tracheal Carina.

The present invention overcomes the deficiencies of the background byproviding an endobronchial tube having an integrated image sensor with acorresponding light source and integrated means for maintaining thefield of view provided by the image sensor, for example in the form of acleaning nozzle and/or lumen.

A preferred embodiment of the present invention provides for arespiratory tube, preferably in the form of a double lumen endobronchialtube, designed for oral or nasal insertion via the trachea and into alung to inspect and/or visualize the Carina, to maintain airway patencyand/or deliver anesthetic, inhalation agent or other medical gases, andsecure ventilation.

Most preferably the endobronchial tube of the present invention may bemade of medical grade materials for example including but not limited toplastic, rubber, polymers or silicone or the like materials as is knownin the art.

Most preferably the endobronchial tube of the present invention providesfor continuous monitoring of the Tracheal Carina (herein “TC”), allowinga user, physician, nurse, or caregiver to verify the correct placementof the endobronchial tube while maintaining a clear field of view of theTC.

Most preferably the endobronchial tube includes an integrated imagesensor, optionally and preferably in the form of CCD or CMOS cameraprovided for visualizing the carina to confirm the correct placement ofthe tube within the trachea and bronchi, assuring correct ventilationduring procedures for example including but not limited to one lungventilation procedures, or the like.

Most preferably the integrated camera and light source providecontinuous verification of the correct placement of the endobronchialtube. The continuous placement verification allows a caregiver theopportunity to detect any dangerous situation, for example cuffdislodgement, providing sufficient time to react to the situation as isnecessary. Moreover blood and secretion accumulation or any otherunexpected incidents during surgery, which might cause risk to thepatient, may be observed.

A preferred embodiment of the present invention provides for anendobronchial tube with an integrated image sensor, for exampleincluding but not limited to CCD or CMOS camera, with a correspondinglight source, for example including but not limited to a Light EmittingDiode (‘LED’) while optimizing the lumen patency for both adequateairflow performance through the tube. Most preferably the image sensorand corresponding light source are provided in a dedicated lumen alongthe length of the endobronchial tube. Most preferably the image sensoris further provided with at least one or more adjacent and integratedcleaning nozzle to ensure an open field of view, for example of the TC,distal to the image sensor. Most preferably the integrated cleaningnozzle may be configured to be wholly embedded within the tube's wall inthe form of a dedicated cleaning lumen running the length of the tube.Most preferably the length of the dedicated image sensor lumen isprovided paralleled with the length of the tracheal lumen, therein bothtracheal lumen and image sensor lumen are of essentially the samelength. Optionally the length of the dedicated image sensor lumen may beprovided according to the length of the bronchial lumen.

Optionally the endobronchial tube may be provided with two dedicatedimage sensor lumen. Optionally a first dedicated image sensor lumen isprovided according to the length of the tracheal lumen and a seconddedicated image sensor lumen is provided according to the length of thebronchial lumen.

A preferred embodiment of the present invention provides for anendobronchial tube having an integrated image sensor, light source andcleaning nozzle capable of providing a continuously and unobstructedview and illumination of the carina, left bronchi, right bronchi,bronchial cuff and bronchial bifurcations, within a single field ofview.

Optionally and preferably the tube of the present invention utilizes atleast one or more bronchial cuff. Optionally at least two or morebronchial cuffs may be utilized to provide adequate sealing of thebronchi.

Optionally the bronchial cuff may be provided in varying shapes so as tobetter fit the bronchi for example include but is not limited tospherical, elliptical, helical, hourglass, trapezoidal, or the like.

Optionally different bronchial cuff configured and shaped according toanatomy and placement location, for example anatomy based onconfiguration of a cuff for left bronchi placement and for right bronchiplacement.

Within the context of this application the term endobronchial tube maybe used interchangeably with any one of Tracheobronchial tube, doublelumen tube, double lumen endobronchial tube, double lumen endotrachealtube, to collectively refer to a tube and/or catheter utilized forselectively ventilating a subject via both lungs, one of the lungs or aportion of one or both of the lungs.

An endobronchial tube comprising an external wall and an internal septumdefining at least two ventilation lumen of different lengths forselectively associating with a patient about at least two locationsrelative to the Tracheal Carina, the tube comprising:

a first ventilation lumen having an open distal end that associatesproximally to the Carina within the Trachea, with a first inflatablecuff ; and

a second ventilation lumen having an open distal end that extendsdistally, past the Carina and associates within one of the LeftBronchial branch or Right Bronchial branch with a second inflatablecuff;

the tube further comprising at least two peripheral lumen of differentlengths, that are disposed within the tube's external wall and runningparallel with the at least the first ventilation lumen;

the first peripheral lumen comprises an image sensor and light sourcedisposed proximal to the distal end of the first ventilation lumen, andconfigured to provide an image of the Tracheal bifurcation of theTracheal Carina, the openings of the Left Bronchial branch, and theopening Right Bronchial branch;

the second peripheral lumen defining a dedicated cleaning lumen, havinga distal end disposed distally to the distal end of the first peripherallumen about the image sensor and light source, the second peripherallumen having a distal end having a plurality of variably sized openings,wherein each opening forms a cleaning nozzle distal to the image sensor,the second peripheral lumen configured to conduct a flowing fluid tomaintain a clear field of view distal to the image sensor.

Optionally and preferably the distal end of the second peripheral lumencomprises four openings defining four cleaning nozzles about the imagesensor. The four openings are preferably arranged distally to oneanother in a linear sequential manner. The first opening having anopening of about 0.8 mm defining the first cleaning nozzle directlyadjacent to the image sensor. The remaining three openings may beconfigured to have a nozzle opening of about 0.6 mm.

Optionally the cleaning nozzles may be variably spaced relative to oneanother and/or may be uniformly spaced relative to one another about thedistal end of the second peripheral lumen.

Optionally, the tube may further comprise additional peripheral lumenrunning along the second ventilation lumen providing for a second imagesensor and light source providing an image of the Right bronchi or Leftbronchi, and dedicated cleaning lumen.

Optionally the first and second peripheral lumen may run parallel withthe second ventilation lumen rather than the first ventilation lumen.

Optionally the image sensor may be a CCD image sensor or CMOS imagesensor.

Optionally, the first peripheral lumen further comprises a light sourcedisposed proximal to the distal end and adjacent to the image sensor.

Optionally the light source may be selected from the group consisting ofa LED, optical fiber, waveguide, light guide, and any combinationthereof.

Optionally the first peripheral lumen comprising an image sensor andlight source may be disposed within a dedicated channel embedded withina wall of the first lumen.

Most preferably the image sensor may be associated with an auxiliarydevice for example including but not limited to a display and powersupply at the proximal end of the tube most preferably about the firstlumen, through a single dedicated connector for example including butnot limited to a USB connector.

Optionally the endotracheal tube may be adapted for non-invasiveinsertion through the oral cavity or nasal cavity.

Optionally the endotracheal tube may be adapted for insertion through anexternal port or incision.

Optionally the endotracheal tube may be adapted for insertion through asurgical procedure or other invasive procedure.

Unless otherwise defined, all technical and scientific terms used hereinhave the same meaning as commonly understood by one of ordinary skill inthe art to which this invention belongs. The materials, methods, andexamples provided herein are illustrative only and not intended to belimiting.

BRIEF DESCRIPTION OF THE DRAWINGS

The invention is herein described, by way of example only, withreference to the accompanying drawings. With specific reference now tothe drawings in detail, it is stressed that the particulars shown are byway of example and for purposes of illustrative discussion of thepreferred embodiments of the present invention only, and are presentedin order to provide what is believed to be the most useful and readilyunderstood description of the principles and conceptual aspects of theinvention. In this regard, no attempt is made to show structural detailsof the invention in more detail than is necessary for a fundamentalunderstanding of the invention, the description taken with the drawingsmaking apparent to those skilled in the art how the several forms of theinvention may be embodied in practice.

In the drawings:

FIGS. 1A-B show schematic illustrations of an exemplary endobronchialtube according to an optional embodiment of the present invention; FIG.1A shows the endobronchial tube within the right bronchi; FIG. 1B showsthe endobronchial tube within the left bronchi;

FIG. 2 shows a schematic sectional view of the Tracheal Carina as seenfrom the endobronchial tube according to an optional embodiment of thepresent invention;

FIG. 3 shows a perspective view of an exemplary endobronchial tubeaccording to an optional embodiment of the present invention;

FIG. 4A shows a perspective view of an exemplary endobronchial tubeaccording to an optional embodiment of the present invention;

FIG. 4B shows a close up view of notch exit point for the image sensorconnector according to the present invention;

FIG. 5 shows a perspective view of exemplary endobronchial tubeaccording to an optional embodiment of the present invention;

FIG. 6 shows a perspective view of exemplary endobronchial tubeaccording to an optional embodiment of the present invention, depictingthe curvature of the tube;

FIGS. 7A-F shows varying close up views of the distal end of theendobronchial tube according to optional embodiments of the presentinvention;

FIGS. 7G-H show a preferred embodiment of the cleaning nozzlearrangement according to the present invention;

FIG. 7I shows an optional embodiment according to the present invention;

FIGS. 8A-B show cross-sectional views about different portions of theendobronchial tube according to optional embodiments of the presentinvention; and

FIG. 9 shows a close up view of the image sensor with integrated lightsource within a dedicated lumen disposed within the wall of theendobronchial tube according to an optional embodiment of the presentinvention.

DESCRIPTION OF THE PREFERRED EMBODIMENTS

The principles and operation of the present invention may be betterunderstood with reference to the drawings and the accompanyingdescription. The following reference labels listed below are usedthroughout the drawings to refer to objects having similar function,meaning, role, or objective.

10 Stylet;

12 Y-connector;

14 Air Balance Cap;

20 Endobronchial Tube connector assembly;

22 Endobronchial Tube connector proximal end;

24 Tracheal lumen connector portion;

26 Bronchial lumen connector portion;

28 Endobronchial Tube connector distal end;

50 endobronchial tube system;

100 endobronchial tube;

100 w tube external wall;

101 sectional view;

102 tube proximal end;

104 tube distal end;

104 a distal curvature;

106 tube medial portion;

106 a medial curvature;

108 midline partition;

110 tracheal lumen;

111 tracheal lumen connector;

112 tracheal cuff;

112 n tracheal cuff notch;

114 tracheal lumen distal end;

116 tracheal lumen proximal end;

118 tracheal cuff connector;

120 bronchial lumen;

122 bronchial cuff;

124 bronchial lumen distal end;

126 bronchial lumen proximal end;

128 bronchial cuff connector;

130 injection tube connector;

150 image sensor arrangement;

150 c image sensor;

150 d image sensor lumen distal end;

150I illumination source;

150L image sensor lumen;

152 image sensor notch;

154 image sensor conductor;

156 image sensor single cleaning nozzle;

158 image sensor connector;

160 cleaning lumen;

160 d cleaning lumen distal end;

162 cleaning nozzle arrangement;

164 four cleaning nozzle arrangement;

166 primary cleaning nozzle;

168 secondary cleaning nozzles;

TR Trachea;

TC Tracheal Carina;

BR Right Bronchi;

BL Left Bronchi.

FIG. 1A shows a schematic illustration of an exemplary endobronchialtube 100 according to an optional embodiment of the present inventionplaced within the right bronchi (BR). FIG. 1B shows a schematicillustration of an endobronchial tube 100 within the left bronchi (LB).

Endobronchial tube 100 is a dual lumen tube comprising an external wall100 w, a first tracheal ventilation lumen 110 and a second bronchialventilation lumen 120. Most preferably wall 100 w is a common to bothtracheal lumen 110 and bronchial lumen 120 wherein wall 100 w mostpreferably defines the external surface of tube 100. Most preferably aninternal septum and/or midline partition 108 defines the individuallumen into tracheal lumen 110 and bronchial lumen 120, FIG. 8A-B.Tracheal lumen 110, most preferably, has a distal end 114 ending withinthe trachea while the bronchial lumen 120 has a distal end 124 endingswithin the bronchi, left or right. Therein tracheal lumen 110 andbronchial lumen 120 are configured to have different lengths, whereinthe bronchial lumen 120 extends past and/or distally to tracheal lumen110.

Most preferably each ventilation lumen comprising an inflatable cuffrespectfully, tracheal cuff 112 and bronchial cuff 122. Optionally andpreferably cuffs 112 and 122 are individually controllable. Tube 100 isplaces such that the tracheal lumen 110 is placed within the Trachea byway of cuff 112 proximally, above, the tracheal carina (‘TC’). Mostpreferably the tracheal carina may be continually visualized with animage sensor 150 c and light source 150I, FIG. 9.

Most preferably wall 100 w of tube 100 comprises a plurality ofdedicated peripheral lumen dispersed about the periphery of wall 100 w,FIG. 8A-B. Most preferably tube 100 comprises at least two or morededicated peripheral lumen; a first dedicated peripheral lumen providedas a dedicated image sensor lumen 150L provided for imaging the TC; anda second dedicated peripheral lumen provided in the form of a dedicatedcleaning lumen 160 for clearing and/or cleaning the view of image sensordisposed in lumen 150L.

Most preferably tube 100 according to the present invention ischaracterized in that it comprises a cleaning nozzle arrangement 162about distal end 160 d, FIGS. 7G-H. Most preferably cleaning nozzlearrangement 162 comprises a plurality of cleaning nozzles arranged aboutthe distal end 160 d and distally to image sensor arrangement 150 so asto ensure that a tube 100 is provided with a clear and unobstructed viewof the TC, for example as shown in FIG. 2. Most preferably cleaningnozzle arrangement are optionally and preferably directed and/or aimedto clear the field of view immediately distal to image sensorarrangement 150 about the distal end 114 of tracheal ventilation lumen110.

Optionally and most preferably cleaning nozzle arrangement 162 maycomprise at least two or more cleaning nozzles about distal end 160 d.Most preferably a cleaning nozzle arrangement 162 comprising a pluralityof cleaning nozzles about distal end 160 d provides sufficient flushingand/or cleaning power and/or force and/or pressure so as to provideimage sensor arrangement 150 with an unobstructed view by evacuatingbiological debris for example mucus or the like biological builds up inand about distal end 114, 150 d and 160 d.

Most preferably cleaning nozzle arrangement 162 comprises a fourcleaning nozzle arrangement 164 about image sensor arrangement 150. Fourcleaning nozzle arrangement 164 includes a first primary cleaning nozzle166 and at least three secondary cleaning nozzles collectively referredto as 168, as shown in FIGS. 7G-H.

Most preferably arrangement 164 may be arranged distally to one anotherin a linear sequential manner for example as shown in FIG. 7G-H. Mostpreferably primary cleaning nozzle 166 may be configured to have anozzle opening of about 0.8 mm, and is most preferably disposedimmediately and/or directly adjacent to the image sensor arrangement150. Most preferably secondary cleaning nozzles 168 may be configured tohave a nozzle opening of about 0.6 mm, and a disposed distally toprimary cleaning nozzle 166.

Optionally secondary cleaning nozzles 168 may optionally be spaced apartequally, for example about 0.5 mm. Optionally secondary cleaning nozzles168 may be spaced unequally distal to primary cleaning nozzle 164.

Optionally cleaning nozzle arrangement 162 about distal end 160 d may beconfigured in optional geometric arrangements, wherein primary cleaningnozzle 166 is disposed nearest to image sensor arrangement 150 providinga first flushing and/or cleaning activity, while a plurality ofsecondary cleaning nozzle 168 are arranged distally thereto to provide asecondary flushing and/or cleaning activity, FIG. 7I.

Optionally cleaning nozzles 166, 168 may be provided with an openinghaving a diameter from about 0.1 mm to about 2 mm. Optionally primarycleaning nozzle 166 has a larger nozzle opening diameter than dosecondary cleaning nozzles 168.

Most preferably image sensor 150 c and light source 150I are disposedwithin a first dedicated peripheral lumen 150L that is most preferablydisposed within wall 110 w. Optionally and most preferably image sensorlumen 150L comprising image sensor 150 c and light source 150I may beintegrated within tracheal lumen 110 about distal end 114, such that thedistal end 150 d is adjacent to distal end 114. Optionally and mostpreferably the image sensor apparatus 150 remains within its dedicatedperipheral lumen 150L. Optionally and most preferably image sensorarrangement 150, FIG. 9, comprising an image sensor 150 c and a lightsource 150I may be integrated within a dedicated channel or peripherallumen 150L within a wall of the tracheal lumen 110. Most preferablyimage sensor 150 provides a cross sectional view 101, for example asshown in FIG. 2.

Most preferably image sensor arrangement 150 are provided in the form ofat least one or more light emitting diode (‘LED’) 150I and image sensor150 c for example including but not limited to a CCD or CMOS, (FIG. 9)providing a view 101 showing the status of the bronchi, FIG. 2.

FIG. 2 shows a schematic sectional view of the Tracheal Carina as seenfrom endobronchial tube 100, provided by image sensor and light source150, allowing the visualization of bronchial cuff 122 disposed withinthe left bronchi BL, the patency of the left bronchi, the patency of theright bronchi, the tracheal carina, bronchial bifurcation, in a singlefield of view 101. Optionally a similar view may be provided with imagesensor 150 when tube 100 is disposed with the right Bronchi BR as shownin FIG. 1A.

FIG. 3 shows endobronchial double lumen tube system 50 comprisingendobronchial tube 100 and optional various auxiliary devices that maybe used in conjunction with and/or facilitate the use of tube 100.

Optionally auxiliary devices may for example include but are not limitedto stylet 10, Y-connector 12, air balance caps 14, and an endobronchialtube connector assembly 20, or the like adjunct device utilizedfacilitating the use of tube 100 as is known in the art.

Stylet 10 most preferably is utilized to facilitate placement of tube100, as is known and accepted in the art.

Y-connector 12 most preferably provides for simultaneously connectingboth lumens of double lumen tube 100 to a single ventilation source.

Endobronchial Tube connector assembly 20 provides for individuallyconnecting to tracheal lumen 110 and bronchial lumen 120. Connectorassembly 20 comprises a proximal end 22, distal end 28, and respectivetracheal lumen connector portion 24 and Bronchial connector portion 26.

Most preferably proximal end 22 provides for connecting and/or otherwiseassociating the tube 100 at proximal end 102 at about the individuallumen tracheal lumen 110 and bronchial lumen 120 to auxiliary devicesfor example including but not limited to ventilation sources.

Most preferably distal end 24 provides for coupling and/or otherwiseassociating with tube 100.

FIG. 3 further provides a perspective view of a preferred double lumenendobronchial tube 100 comprising tracheal lumen 110 having a tracheallumen distal end 114 and bronchial lumen 120 having a bronchial lumendistal end 124.

Tube 100 further comprises tracheal cuff 112, shown in its expandedstate, provided for securely placing and/or anchoring tube 100 withinthe trachea while ventilating the lungs through tracheal lumen 110.

Tube 100 further comprises bronchial cuff 122, shown in its expandedand/or inflated state, provided for securely placing and/or anchoringtube 100 within the bronchi, left or right. Most preferably cuff 122provides for selectively controlling the ventilation to the bronchialarch wherein it is placed (left or right). For example ventilation toeither the left or right bronchi may be completely blocked so as toallow a procedure on the respective lung (for example right) whileallowing the ventilation of the other lung (for example left) viatracheal lumen 110.

Most preferably tracheal cuff 112 may be inflated and/or deflated viacuff tracheal connector 118.

Most preferably bronchial cuff 122 may be inflated and/or deflated viacuff bronchial connector 128.

Most preferably injection tube connector 130 provides an access point toa dedicated lumen about each of the tracheal tube 110 and bronchial tube120, preferably for delivering drugs, suctioning liquids about trachealdistal 114 and/or bronchial lumen distal end 124.

FIG. 4A provide a further perspective view of endobronchial tube 100,showing image sensor connector 158. Most preferably image sensorconnector 158 is provided in the form of a USB connector that providesboth for image and power supply to image sensor 150 disposed in adedicated lumen near distal end 114. Optionally and preferably imagesensor and illumination 150 may be rendered function when connected to adisplay and power source (not shown) via connector 158.

FIG. 4B provides a close up view showing the image sensor notch 152disposed about the proximal end of image sensor lumen 150L providing anexit point for image sensor conducting wires 154, most preferablyprovided for both image transfer and power supply to image sensor andillumination source 150.

FIG. 5 provides a further perspective view of tube 100 provided from aface on view showing the separation of tracheal lumen 110 and bronchiallumen 120 at distal end 104 of tube 100.

FIG. 6 provides a further schematic illustrative depiction of tube 100showing a perspective view of tube 100 with the bronchial cuff 122 andtracheal cuff 112 removed. FIG. 6A shows the curvature provided at boththe medial section 106 and distal end 104 therein defining a medialcurvature 106 a and a distal curvature 104 a. Curvatures 104 a and 106 aare provided to so that tube 100 fits within the upper airway tract'sanatomy.

Most preferably medial curvature 106 a is provided for the ease ofaccessing and introducing tube 100 within the trachea through the oralcavity and pharynx. Most preferably, curvature 106 a, is provided withan angle from about 100 degrees to about 160 degrees.

Most preferably distal curvature 104 a is provides for ease of accessingand introducing distal end 104 into one of the bronchi, left or right.Optionally and preferably distal curvature 104 a may be specific forindividual left or right endobronchial tubes. Optionally distalcurvature may be configured to be from about 25 degrees to about 70degrees. Optionally and preferably about 35 degrees as shown.

Optionally the length of tube 100 may be provided with a length fromabout 200 mm to about 550 mm. Optionally and preferably the length oftube 100 may be selected in accordance with a user's anatomy.

Optionally endobronchial tube 100 may be provided with different sizes,length, diameters as known and accepted in the art. Optionally tube 100may be provided with a gauge from about 26 Fr to about 44 Fr, or fromabout For example the external diameter of tube 100 may be provided invarying gauges and/or sizes for example including but not limited to 28Fr, 32 Fr, 35 Fr, 37 Fr, 39 Fr and 41 Fr, within the context of thisapplication the units ‘Fr’ refer to the gauge of the tube 100 in theunits French as is a common term of the art. Alternatively the gauge andor size of tube 100 may be provided in the SI units of millimeters ‘mm’.The tube 100 according to the present invention may be provided with anexternal diameter of about 9.3 mm, 10.7 mm, 11.7 mm, 13 mm and 13.7 mm.

Optionally and preferably the length and diameter (also referred to asgauge) of tube 100 may be correlated with one another.

FIG. 7A shows a close up view of distal end 104 of tube 100 shown inFIG. 6 providing a close up view. FIG. 7A further shows a close up viewof curvature 104 a showing the flaring 114 f of distal end 104 from wall100 w of tracheal lumen into the side portion of bronchial lumen 120,most preferably forming and distal end flaring 114 f. Most preferablyflaring 114 f at distal end 104 a further provides for placing and/orapproximating the distal ends 150 d, 160 d of the peripheral dedicatedlumen 150L, 160 near the distal end 114 of ventilation lumen 110, forexample as shown in FIG. 7C.

Most preferably flaring 114 f forms a cover and/or cap over the distalend of the dedicated peripheral lumen 150 d and 160 d adjacent to distalend 114 of ventilation lumen 110.

Most preferably distal end flaring 114 f facilitates placement of acleaning nozzle arrangement 162 about the distal end 160 d of cleaninglumen 160, for example as shown in FIGS. 7C and 7G. Optionally flaring114 f may facilitate the cleaning function provided by arrangement 162.

FIGS. 7A-E show various close up view of distal end 104 specific tocurvature 104 a showing the flaring 114 f and tapering of distal end 104from the tracheal lumen 110 into the side portion of bronchial lumen120.

FIGS. 7D-E provide additional close up views of the distal end 150 d andcleaning lumen 160 showing revealing an optional primary cleaning nozzle166 in the form of a single cleaning nozzle 156, most preferablyprovided for cleaning image sensor 150 c.

Optionally cleaning nozzle 156 may be provided with an opening having adiameter from about 0.1 mm to about 2 mm, more preferably from about 0.4mm to about 0.9 mm, optionally about 0.6 mm or 0.8 mm.

Image sensor 150 is most preferably provided in a dedicated lumen 150Lthat spans the length of tube 100. Most preferably lumen 150 is disposedbetween tracheal lumen 110 and bronchial lumen 120.

Most preferably distal end of lumen 150L provides for visualizing thecarina and the bronchial cuff 122, for example as shown in FIG. 2.

Most preferably the diameter of image sensor lumen 150L is variablealong the length of tube 100. Most preferably image sensor lumen 150 issmallest at the proximal end 102 and largest at the distal end 104.Optionally and preferably at proximal end 102 sensor lumen 150L isconfigured to have an elliptical cross-section. Optionally andpreferably at distal end of sensor lumen 150L is configured to have acircular cross-section.

Most preferably alongside image sensor lumen 150L is a dedicatedcleaning lumen 160 that has a distal end defining a cleaning nozzle 156,as shown, providing for cleaning image sensor 150 about its distal end.Optionally and preferably cleaning nozzle 156 is provided with acurvature and/or angle so as to direct cleaning solution, fluid, gas orthe like flowing fluid toward and/or away from integrated image sensor150 and more preferably image sensor 150c. For example cleaning lumen160 may be utilized to clear mucus or the like biological obstructionfrom in front of integrated image sensor 150 by flushing with a flowingfluid, for example a liquid or gas, from the proximal end of lumen 160through to its distal end 160 d and forming at least one or morecleaning nozzle 156, 166, 168 or a cleaning nozzle arrangement 162, 164.Optionally cleaning lumen 160 may be used to clear the viewing field ofintegrated image sensor 150 by applying suctioning therein suctioning infront of the field of view to keep it clean.

FIG. 7F shows a close up view of cleaning nozzle 156 that is directedtoward image sensor 150 about the distal end of lumen 150L. Optionallyand preferably cleaning nozzle 156 is configured such that it providesfor maintaining an open field of view of the Tracheal Carina forintegrated images sensor 150.

While FIG. 7E-F show an optional cleaning nozzle arrangement having asingle cleaning nozzle 156, about the tubes distal portion 104, FIGS.7G-H show a preferred embodiment of the present invention for aventilation tube 100 having a four cleaning nozzle arrangement 164comprising a plurality of cleaning nozzles, including a primary cleaningnozzle 166 and three secondary cleaning nozzle 168. FIG. 7G shows anillustrative diagram of the preferred embodiment showing cleaning nozzlearrangement 162 about the distal end 114. Most preferably nozzlearrangement 162 comprises a primary nozzle 166 and a plurality ofsecondary nozzles 168, as previously described. As shown a preferredembodiment comprises three secondary nozzles 168 disposed distally toprimary nozzle 166 and image sensor 150. Most preferably the cleaningnozzles comprising nozzle arrangement 162 are directed so as to cleanand/or clear and/or suction any biological debris for example mucus thatforms distally to image sensor 150.

Optionally cleaning nozzles 166, 168 may be provided with an openinghaving a diameter from about 0.1 mm to about 2 mm. Optionally primarycleaning nozzle 166 has a larger nozzle opening diameter than dosecondary cleaning nozzles 168.

FIG. 7H provides a close up view of four cleaning nozzle arrangement 164about distal end 114, as previously described and according to apreferred embodiment of the present invention, wherein the nozzlearrangement is characterized by a distally linear arrangement whereinprimary nozzle 166 is adjacent to image sensor 150 while secondarynozzles 168 are positioned distally therefrom, optionally and preferablyat equidistant from one another.

FIG. 7I shows an optional cleaning nozzle arrangement 162 where aplurality of secondary cleaning nozzles 168 are arranged about imagesensor 150 in a circumferential arrangement, for example as shown.

Optionally and preferably the distal end 160 d of cleaning lumen 160 maybe curved such that the distal end 160 d and nozzle arrangements 162,164 are most preferably directed toward the distal end 150 d of imagesensor lumen 150L therein providing for forming a cleaning nozzlearrangement 162 that is optionally and preferably directed toward imagesensor 150.

Optionally tube 100 may be provided with at least two or more peripheralcleaning lumen 160 for example as shown in FIG. 8A-B. Optionally a firstcleaning lumen may be provided for flushing biological obstruction whilea second cleaning lumen may be provided for suctioning biologicalobstructions away from the distal end 114. Optionally a plurality ofcleaning lumen 160 may be disposed on opposite sides of integrated imagesensor 150.

Optionally a plurality of cleaning lumen 160 may be configured tocooperate with one another, for example a first lumen would flushbiological obstructions toward a second cleaning lumen where theobstruction is carried away by suctioning.

Optionally at least two or more cleaning lumen 160 may be utilizedconcertedly to either suction or flush obstructions distal to integratedimage sensors 150, therein most preferably ensuring an open viewingfield. Optionally a plurality of cleaning lumen may be provided withdifferent diameters and or sizes.

FIG. 8A shows a cross sectional view of tube 100 about its proximal end102 having tracheal lumen 110 and a bronchial lumen 120 defined oneither side of a midline partition 108. Most preferably tube 100comprises a plurality of peripheral lumen disposed internally and/orwithin the walls of tube 100. Most preferably a plurality of peripherallumen may be disposed about the circumference of tube 100, within wall100 w, and span essentially the length of tube 100, about the tracheallumen 110 and/or bronchial lumen 120. Optionally and preferably theperipheral lumen may for example include but is not limited to asuctioning lumen, cuff inflating lumen, electronic lumen, image sensorlumen, cleaning lumen, injection tube lumen, or the like.

Most preferably tube 100 includes a dedicated lumen 150L provided forimage sensor and integrated illumination source 150. Most preferablylumen 150L provides for housing the image sensor 150 at its distal end(FIG. 7E-F) and housing image sensor conducts for example in the form ofa wire 154, disposed along the length of lumen 150L, and a image sensornotch 152 disposed near the proximal end of lumen 150L allowing imagesensor conductor 154 and connector 158 to be disposed external to tube100.

Optionally and preferably lumen 150L is disposed about the anteriorportion of tube 100 about the middle of the cross-section of tube 100.Most preferably lumen 150L is disposed anterior to partition 108.Optionally lumen 150L may be disposed about the posterior portion oftube 108 therein posterior to partition 108.

Most preferably on both sides of lumen 150L are dedicated lumen runningalong the length of tube 100 and most preferably running parallel withlumen 150L. Optionally and preferably at least one or more of lumen areprovided as a dedicated cleaning lumen 160. Optionally both lumenflanking lumen 150L may be dedicated cleaning lumen 160.

Most preferably tube wall further comprises lumen 112L and 122Lrespectively corresponding to tracheal lumen 110 and bronchial lumen120. Optionally and preferably lumen 112L and 122L are provided forinflating and/or deflating cuffs 112 and 122 respectively.

FIG. 8B shows the same image as in FIG. 8A however showing thecross-section near tracheal lumen distal end 114 of tube 100. Mostpreferably at tracheal lumen distal end 114 image sensor lumen 150L isprovided with a lumen having a larger radius than that provided at theproximal end 102 as shown in FIG. 8A. Most preferably tube 100 isexpanded about distal end 104 and lumen 150L to accommodate integratedimage sensor 150. Optionally image sensor lumen 150 about the externalsurface of tube 110 is widened and/or expanded 1.5 mm to 5 mm fromdistal end 114 of tracheal lumen 110.

Optionally the image sensor dedicated lumen 150L is provided with annotch 150 n disposed 22.5 mm from the proximal end 102 of tube 100 and aexit notch having a diameter of about 1.5 mm.

FIG. 9 shows a close up bottom-up view of the integrated image sensor150 within dedicated electronics lumen 150L disposed within the wall ofthe endobronchial tube 100, showing image sensor 150 c optionally andpreferably provided in the form of a CCD or CMOS or the like, andillumination source 150I most preferably provided in the form of atleast one and more preferably at least two or more LED, as shown.

While the invention has been illustrated primarily with reference to aleft bronchi endobronchial tube, it will be appreciated that the presentinvention is not limited to a left bronchi endobronchial tube where theinventive and novel aspects equally covers a right bronchi endobronchialtube.

While the invention has been described with respect to a limited numberof embodiments, it will be appreciated that many variations,modifications and other applications of the invention may be made.

What is claimed is:
 1. An endobronchial tube having proximal and distalends comprising: a. a midline partition dividing said endobronchial tubeinto a tracheal ventilation tube and a bronchial ventilation tube, eachof said tracheal ventilation tube and said bronchial ventilation tubehaving proximal and distal ends; wherein said tracheal ventilation tubeand said bronchial ventilation tube are configured to have differentlengths, wherein said bronchial ventilation tube extends beyond saidtracheal ventilation tube such that said bronchial ventilation tubedistal end is located distally to said tracheal ventilation tube distalend; b. an external wall defining an external surface of saidendobronchial tube; said external wall comprising a plurality ofchannels formed within said external wall, each channel having aproximal end adjacent to said endobronchial tube proximal end, saidplurality of channels comprising an image sensor channel having a distalend adjacent to said tracheal ventilation tube distal end; a cleaningchannel having a distal end adjacent to said tracheal ventilation tubedistal end, a tracheal cuff channel having a distal end adjacent to saidtracheal ventilation tube distal end; and a bronchial cuff channelhaving a distal end adjacent to said bronchial ventilation tube distalend; wherein the diameter of said image sensor channel is smaller atsaid proximal end and larger at said distal end of said image sensorchannel; c. a flaring at the distal end of said tracheal ventilationtube forming a cover over the distal end of said image sensor channel;d. an image sensor arrangement comprising an image sensor and lightsource housed interior and adjacent to the distal end of said imagesensor channel; wherein said light source is selected from the groupconsisting of at least one LED, optical fiber, waveguide, light guide,and any combination thereof; wherein said image sensor is selected fromthe group consisting of a CCD and CMOS image sensor; e. a cleaningnozzle arrangement in fluid communication with the distal end of saidcleaning channel and proximal to said image sensor arrangement; whereinsaid nozzle arrangement comprises a primary nozzle aimed such that fluidexits the nozzle towards the distal end of said image sensor and aplurality of secondary nozzles aimed such that fluid exits the nozzletowards the area immediately distal to said image sensor arrangement; f.image sensor conducting wires and an image sensor connector, said imagesensor conducting wires having a proximal end connected to said imagesensor connector and a distal end connected to said image sensor andsaid light source such that said image sensor connector is electricallyconnected to said image sensor and said light source and is in imagetransfer data communication with said image sensor; g. an image sensorconducting wire notch, wherein the proximal end of said image sensorchannel includes said image sensor conducting wire notch through whichsaid image sensor conducting wires exit said image sensor channel; h. aninflatable tracheal cuff attached to said external wall of saidendobronchial tube and positioned proximal to the distal end of saidtracheal ventilation channel and in fluid communication with saidtracheal cuff channel; i. an inflatable bronchial cuff attached to saidexternal wall of said endobronchial tube and positioned proximal to thedistal end of said bronchial ventilation channel and in fluidcommunication with said bronchial cuff channel; wherein saidendobronchial tube has a gauge from 26 Fr to 44 Fr; wherein saidtracheal cuff and said bronchial cuff are individually inflatable;wherein said external wall of said endobronchial tube has a medialcurvature adjustable from 100 degrees to 160 degrees; and wherein saidexternal wall of said endobronchial tube has a left or right bronchialinsertion compatible distal curvature; said distal curvature adjustablefrom 25 degrees to 70 degrees.
 2. The endobronchial tube of claim 1;wherein, upon insertion of said endobronchial tube into a patient withsaid bronchial ventilation tube disposed in the left bronchi of thepatient, said image sensor and said light source allow the visualizationof said bronchial cuff disposed within the left bronchi, the patency ofthe left bronchi, the patency of the right bronchi, the tracheal carina,and the bronchial bifurcation, in a single field of view;
 3. Theendobronchial tube of claim 1; wherein, upon insertion of saidendobronchial tube into a patient with said bronchial ventilation tubedisposed in the right bronchi of the patient, said image sensor and saidlight source allow the visualization of said bronchial cuff disposedwithin the right bronchi, the patency of the left bronchi, the patencyof the right bronchi, the tracheal carina, and the bronchialbifurcation, in a single field of view.
 4. The endobronchial tube ofclaim 1; wherein said flaring forms a cap over the distal end of saidimage sensor channel.
 5. The endobronchial tube of claim 1; wherein aportion of said cleaning channel is enclosed to form a cleaning tubeprotruding from said external wall; wherein a cleaning tube connector isconnected to the proximal end of said cleaning tube and is in fluidcommunication with said cleaning tube.
 6. The endobronchial tube ofclaim 5; wherein a portion of said tracheal cuff channel is enclosed toform a tracheal cuff tube protruding from said external wall, wherein atracheal cuff connector is connected to the proximal end of saidtracheal cuff tube and is in fluid communication with said tracheal cufftube.
 7. The endobronchial tube of claim 6; wherein a portion of saidand bronchial cuff channel is enclosed to form a bronchial cuff tubeprotruding from said external wall; wherein a bronchial cuff connectoris connected to the proximal end of said bronchial cuff tube and is influid communication with said bronchial cuff tube.
 8. The endobronchialtube of claim 7; wherein said plurality of channels are fully enclosedchannels.
 9. The endobronchial tube of claim 1; wherein said imagesensor connector comprises a USB connector.
 10. An endobronchial tubehaving proximal and distal ends comprising: a. a midline partitiondividing said endobronchial tube into a tracheal ventilation tube and abronchial ventilation tube, each having proximal and distal ends;wherein said tracheal ventilation tube and said bronchial ventilationtube are configured to have different lengths, wherein said bronchialventilation tube extends beyond said tracheal ventilation tube such thatsaid bronchial ventilation tube distal end is located distally to saidtracheal ventilation tube distal end; b. an external wall defining anexternal surface of said endobronchial tube; said external wallcomprising a plurality of channels formed within said external wall,each channel having a proximal end adjacent to said endobronchial tubeproximal end, said plurality of channels comprising an image sensorchannel having a distal end adjacent to said tracheal ventilation tubedistal end; a cleaning channel having a distal end adjacent to saidtracheal ventilation tube distal end, a tracheal cuff channel having adistal end adjacent to said tracheal ventilation tube distal end; and abronchial cuff channel having a distal end adjacent to said bronchialventilation tube distal end; wherein the diameter of said image sensorchannel is smaller at said proximal end and larger at said distal end ofsaid image sensor channel; c. a flaring at the distal end of saidtracheal ventilation tube forming a cover over the distal end of saidimage sensor channel; d. an image sensor arrangement comprising an imagesensor and light source housed interior and adjacent to the distal endof said image sensor channel; wherein said light source comprises twoLEDs; wherein said image sensor comprises a CMOS image sensor; e. acleaning nozzle arrangement in fluid communication with the distal endof said cleaning channel and proximal to said image sensor arrangement;wherein said nozzle arrangement comprises a primary nozzle aimed suchthat fluid exits the nozzle towards the distal end of said image sensorand three secondary nozzles aimed such that fluid exits said secondarynozzles towards the area immediately distal to said image sensorarrangement; wherein said primary nozzle has a larger nozzle openingdiameter than do said secondary nozzles; wherein said primary nozzle hasan opening of between 0.7 mm to 0.9 mm, and wherein each of saidsecondary nozzles has an opening of between 0.5 mm to 0.7 mm; whereinsaid primary nozzle is adjacent to said image sensor while saidsecondary nozzles are positioned linearly distally therefrom equidistantfrom one another; f. image sensor conducting wires and an image sensorconnector, said image sensor conducting wires having a proximal endconnected to said image sensor connector and a distal end connected tosaid image sensor and said light source such that said image sensorconnector is electrically connected to said image sensor and said lightsource and is in image transfer data communication with said imagesensor; wherein said image sensor connector comprises a USB connector;g. an image sensor conducting wire notch, wherein the proximal end ofsaid image sensor channel includes said image sensor conducting wirenotch through which said image sensor conducting wires exit said imagesensor channel; h. an inflatable tracheal cuff attached to said externalwall of said endobronchial tube and positioned proximal to the distalend of said tracheal ventilation channel and in fluid communication withsaid tracheal cuff channel; i. an inflatable bronchial cuff attached tosaid external wall of said endobronchial tube and positioned proximal tothe distal end of said bronchial ventilation channel and in fluidcommunication with said bronchial cuff channel; wherein saidendobronchial tube has a gauge from 35 Fr to 41 Fr; wherein saidtracheal cuff and said bronchial cuff are individually inflatable;wherein said external wall of said endobronchial tube has a medialcurvature adjustable from 100 degrees to 160 degrees; and wherein saidexternal wall of said endobronchial tube has a left or right bronchialinsertion compatible distal curvature; said distal curvature adjustablefrom 25 degrees to 70 degrees.
 11. The endobronchial tube of claim 10;wherein, upon insertion of said endobronchial tube into a patient withsaid bronchial ventilation tube disposed in the left bronchi of thepatient, said image sensor and said light source allow the visualizationof said bronchial cuff disposed within the left bronchi, the patency ofthe left bronchi, the patency of the right bronchi, the tracheal carina,and the bronchial bifurcation, in a single field of view;
 12. Theendobronchial tube of claim 10; wherein, upon insertion of saidendobronchial tube into a patient with said bronchial ventilation tubedisposed in the right bronchi of the patient, said image sensor and saidlight source allow the visualization of said bronchial cuff disposedwithin the right bronchi, the patency of the left bronchi, the patencyof the right bronchi, the tracheal carina, and the bronchialbifurcation, in a single field of view.
 13. The endobronchial tube ofclaim 10; wherein said flaring forms a cap over the distal end of saidimage sensor channel.
 14. The endobronchial tube of claim 10; wherein aportion of said cleaning channel is enclosed to form a cleaning tubeprotruding from said external wall; wherein a cleaning tube connector isconnected to the proximal end of said cleaning tube and is in fluidcommunication with said cleaning tube.
 15. The endobronchial tube ofclaim 14; wherein a portion of said tracheal cuff channel is enclosed toform a tracheal cuff tube protruding from said external wall, wherein atracheal cuff connector is connected to the proximal end of saidtracheal cuff tube and is in fluid communication with said tracheal cufftube.
 16. The endobronchial tube of claim 15; wherein a portion of saidand bronchial cuff channel is enclosed to form a bronchial cuff tubeprotruding from said external wall; wherein a bronchial cuff connectoris connected to the proximal end of said bronchial cuff tube and is influid communication with said bronchial cuff tube.
 17. The endobronchialtube of claim 16; wherein said plurality of channels are fully enclosedchannels.
 18. An endobronchial tube having proximal and distal endscomprising: a. a midline partition dividing said endobronchial tube intoa tracheal ventilation tube and a bronchial ventilation tube, eachhaving proximal and distal ends; wherein said tracheal ventilation tubeand said bronchial ventilation tube are configured to have differentlengths, wherein said bronchial ventilation tube extends beyond saidtracheal ventilation tube such that said bronchial ventilation tubedistal end is located distally to said tracheal ventilation tube distalend; b. an external wall defining an external surface of saidendobronchial tube; said external wall comprising a plurality ofchannels formed within said external wall, each channel having aproximal end adjacent to said endobronchial tube proximal end, saidplurality of channels comprising an image sensor channel having a distalend adjacent to said tracheal ventilation tube distal end; a cleaningchannel having a distal end adjacent to said tracheal ventilation tubedistal end, a tracheal cuff channel having a distal end adjacent to saidtracheal ventilation tube distal end; and a bronchial cuff channelhaving a distal end adjacent to said bronchial ventilation tube distalend; wherein the diameter of said image sensor channel is smaller atsaid proximal end and larger at said distal end of said image sensorchannel; c. a flaring at the distal end of said tracheal ventilationtube forming a cover over the distal end of said image sensor channel;d. an image sensor arrangement comprising an image sensor and lightsource housed interior and adjacent to the distal end of said imagesensor channel; wherein said light source is selected from the groupconsisting of at least one LED, optical fiber, waveguide, light guide,and any combination thereof; wherein said image sensor is selected fromthe group consisting of a CCD and CMOS image sensor; e. a cleaningnozzle arrangement in fluid communication with the distal end of saidcleaning channel and proximal to said image sensor arrangement; whereinsaid nozzle arrangement comprises a primary nozzle aimed such that fluidexits the nozzle towards the distal end of said image sensor and aplurality of secondary nozzles aimed such that fluid exits the nozzletowards the area immediately distal to said image sensor arrangement;wherein the arrangement of said primary and secondary nozzles isselected from the group consisting of: i. said primary and secondarynozzles are arranged distally to one another in a linear sequentialmanner; ii. said secondary nozzles are circumferentially aligned distalto said primary nozzle wherein said primary nozzle is disposed nearestto said image sensor arrangement, while said secondary cleaning nozzlesare arranged distally thereto; iii. said primary nozzle is disposeddirectly adjacent to said image sensor arrangement; wherein saidsecondary nozzles are disposed distally to said primary nozzle; iv. saidsecondary nozzles are spaced equally 0.5 mm apart distal to said primarynozzle; and i. said secondary nozzles are spaced unequally apart distalto said primary nozzle; f. image sensor conducting wires and an imagesensor connector, said image sensor conducting wires having a proximalend connected to said image sensor connector and a distal end connectedto said image sensor and said light source such that said image sensorconnector is electrically connected to said image sensor and said lightsource and is in image transfer data communication with said imagesensor; g. an image sensor conducting wire notch, wherein the proximalend of said image sensor channel includes said image sensor conductingwire notch through which said image sensor conducting wires exit saidimage sensor channel; h. an inflatable tracheal cuff attached to saidexternal wall of said endobronchial tube and positioned proximal to thedistal end of said tracheal ventilation channel and in fluidcommunication with said tracheal cuff channel; i. an inflatablebronchial cuff attached to said external wall of said endobronchial tubeand positioned proximal to the distal end of said bronchial ventilationchannel and in fluid communication with said bronchial cuff channel;wherein said endobronchial tube has a gauge from 26 Fr to 44 Fr; whereinsaid tracheal cuff and said bronchial cuff are individually inflatable;wherein said external wall of said endobronchial tube has a medialcurvature adjustable from 100 degrees to 160 degrees; and wherein saidexternal wall of said endobronchial tube has a left or right bronchialinsertion compatible distal curvature; said distal curvature adjustablefrom 25 degrees to 70 degrees.
 19. The endobronchial tube of claim 18;wherein, upon insertion of said endobronchial tube into a patient withsaid bronchial ventilation tube disposed in the left bronchi of thepatient, said image sensor and said light source allow the visualizationof said bronchial cuff disposed within the left bronchi, the patency ofthe left bronchi, the patency of the right bronchi, the tracheal carina,and the bronchial bifurcation, in a single field of view;
 20. Theendobronchial tube of claim 18; wherein, upon insertion of saidendobronchial tube into a patient with said bronchial ventilation tubedisposed in the right bronchi of the patient, said image sensor and saidlight source allow the visualization of said bronchial cuff disposedwithin the right bronchi, the patency of the left bronchi, the patencyof the right bronchi, the tracheal carina, and the bronchialbifurcation, in a single field of view.
 21. The endobronchial tube ofclaim 18; wherein said flaring forms a cap over the distal end of saidimage sensor channel.
 22. The endobronchial tube of claim 18; wherein aportion of said cleaning channel is enclosed to form a cleaning tubeprotruding from said external wall; wherein a cleaning tube connector isconnected to the proximal end of said cleaning tube and is in fluidcommunication with said cleaning tube.
 23. The endobronchial tube ofclaim 22; wherein a portion of said tracheal cuff channel is enclosed toform a tracheal cuff tube protruding from said external wall, wherein atracheal cuff connector is connected to the proximal end of saidtracheal cuff tube and is in fluid communication with said tracheal cufftube.
 24. The endobronchial tube of claim 23; wherein a portion of saidand bronchial cuff channel is enclosed to form a bronchial cuff tubeprotruding from said external wall; wherein a bronchial cuff connectoris connected to the proximal end of said bronchial cuff tube and is influid communication with said bronchial cuff tube.
 25. The endobronchialtube of claim 24; wherein said plurality of channels are fully enclosedchannels.
 26. The endobronchial tube of claim 18; wherein said imagesensor connector comprises a USB connector.